Using artificial intelligence techniques to aid the search for new superconducting materials
ORAL
Abstract
For decades the search for new superconductors has relied on
the serendipity of material scientists to synthesize a new
material with superconducting proprieties. This is a very
slow and inefficient process. In recent years artificial
intelligence tools have been suggested to expedite the search.
We will describe several computational techniques we have
employed in our studies, which include: K-nearest neighbors
algorithm to perform classification of superconducting materials;
Random Forest regression to calculate superconducting critical
temperatures; Self-Organizing Maps and t-SNE to cluster and
visualize superconductors; and Generative Adversarial Networks
to predict new superconducting materials. These results will
be compared with the results of other similar studies. Our
most promising predictions will be discussed.
the serendipity of material scientists to synthesize a new
material with superconducting proprieties. This is a very
slow and inefficient process. In recent years artificial
intelligence tools have been suggested to expedite the search.
We will describe several computational techniques we have
employed in our studies, which include: K-nearest neighbors
algorithm to perform classification of superconducting materials;
Random Forest regression to calculate superconducting critical
temperatures; Self-Organizing Maps and t-SNE to cluster and
visualize superconductors; and Generative Adversarial Networks
to predict new superconducting materials. These results will
be compared with the results of other similar studies. Our
most promising predictions will be discussed.
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Presenters
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Evan E Kim
Tesla STEM High School, Redmond, WA
Authors
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Evan E Kim
Tesla STEM High School, Redmond, WA
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Benjamin Roter
Applied Physics, Northwestern University
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Nemanja Ninkovic
The University of Akron